Trust for autonomous intelligence
Post-quantum identity, signing, and provenance. Quantum-assisted authentication in research.
MOSS gives each agent a cryptographic identity and signs every output. If four agents touched a payload, you can trace exactly which one produced what — and verify nothing was tampered with in between.
We use ML-DSA-44 (FIPS 204) because RSA, ECDSA, and Ed25519 won't survive quantum computers, and audit logs need to stay valid for decades. Existing tools like GPG weren't built for agents, and JWTs are auth tokens, not signatures.
from moss import Subject
agent = Subject.create("moss:app:agent-1")
envelope = agent.sign({"action": "approve"})
# Verify origin
assert agent.verify(envelope)
$ moss keygen --out agent.key
$ moss sign --in data.json --key agent.key --out data.sig
$ moss verify --in data.json --sig data.sig
Integrations for CrewAI, AutoGen, LangGraph, and LangChain.
Signed Envelope
Signatures
ML-DSA-44
Standard
FIPS 204
Hash
SHA-256
Key Encryption
AES-256-GCM
A stateless, one-shot authentication proof built from two-mode squeezed entanglement and homodyne measurements.
Two-mode squeezed states (TMSS) and homodyne detection are mature, high-rate, room-temperature tools in quantum optics. SEEP explores whether they can provide authentication where there's nothing to extract — each proof consumes the shared quantum state.
Continuous-Variable Entanglement
Team
We're systems engineers, cryptographers, and applied researchers. Backgrounds in embedded systems, physics simulation, real-time graphics, distributed infrastructure, and post-quantum security.
We've shipped large-scale systems, authored authentication patents, and maintain open-source tools. We value rigor, clear thinking, boldness, initiative, ownership, and shipping.
Careers →